CN108305184A - A kind of number mining softwares platform - Google Patents
A kind of number mining softwares platform Download PDFInfo
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- CN108305184A CN108305184A CN201711407064.3A CN201711407064A CN108305184A CN 108305184 A CN108305184 A CN 108305184A CN 201711407064 A CN201711407064 A CN 201711407064A CN 108305184 A CN108305184 A CN 108305184A
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Abstract
The invention discloses a kind of digital mining softwares platform, including digital mining softwares platform, three-dimensional geological modeling needs the on-site data gathering, on-site data gathering to include:The model of geological structure body such as three-dimensional exploration engineering database and stratum, tomography, ore body and interlayer, establish the attached drawing subordinate list of the basic data source geology prospecting report of these models, deviational survey table, table is chemically examined to sample and to the chemical examination table of rock property, the exploration engineering data of mine different phase include borehole data, exploratory trench data, down-the-hole data, and engineering data base carries Mine geological prospecting.Structure of the invention is novel, easy to operate, digital mining softwares are reached the standard grade, realize the real-time calculating update of oil in place, the Grade change situation of exploiting field ore body and horsestone is more easily shown simultaneously, guidance foundation is provided and passes through automatic ore blending system in terms of production for exploitation planning for a long time in mine and short-term production program establishment, it is distributed in conjunction with the quick-fried heap in exploiting field and all kinds of grades, mine scheme is matched in formulation that can be accurate and effective.
Description
Technical field
The present invention relates to software platforms, and in particular to a kind of number mining softwares platform.
Background technology
Currently, mine is measured due to not having professional measuring technique personnel and equipment, stope present situation figure quarterly to measure once
Equipment only has a handhold GPS.Year, season, manufacturing program of a month work are carried out in mining technicians' timing, and wherein monthly plan is not done
Planning chart.Explosion is designed as technical staff's manual designs, and calculates explosive consumption, and live tape measure rope discharge hole is verified, and scene is
For straight hole, perforation sampling is sampled using 15 meters of step rock powder, at low cost.Production target in order to control produces quick-fried heap complete opening chemical examination, adopts
Scene is not done secondary ore-rock and is divided when mine, and naked eyes judge that the uncertain factor of operation is more, manually adjusts workload by rule of thumb
It beats, reactive power consumption phenomenon is more in operation process, and production efficiency cannot play completely.
Invention content
The technical problem to be solved by the present invention is to overcome existing mining during operation uncertain factor
It is more, it manually adjusts workload and beats, the problem of reactive power consumption phenomenon is more in operation process, and production efficiency cannot play completely,
A kind of digital mining softwares platform is provided.
In order to solve the above technical problem, the present invention provides the following technical solutions:
The present invention provides a kind of digital mining softwares platform, including digital mining softwares platform, the number mining softwares are flat
Platform includes that three-dimensional geological modeling, oil in place calculating, mining plan establishment, Ore blending, stope receipt control, engineering go out figure.
As a preferred technical solution of the present invention, the three-dimensional geological modeling needs on-site data gathering, described existing
Field data acquires:The model of geological structure body such as three-dimensional exploration engineering database and stratum, tomography, ore body and interlayer, deviational survey table are right
Sample chemically examines table and the chemical examination table to rock property, and the exploration engineering data of mine different phase include borehole data, exploratory trench number
According to, down-the-hole data, engineering data base carries the details of Mine geological prospecting, productive prospecting and production geology, accurately
Geologic database is to carry out that GEOLOGICAL INTERPRETATION, geological modeling, statistical analysis, grade estimates, reserves calculate etc., and data processings are
DIMINE software data formats imported into DIMINE softwares and can be carried out geologic database field correspondence and preliminary geologic data
Library is established.
It can be according to work during the preliminary geologic database is established as a preferred technical solution of the present invention
Cheng Shiji is regular with logic decision, and the logical relation of sample initial position and final position, inspection lack drilling, inspection lacks
Few sample segments, inspection azimuthal variation, inspection change of pitch angle, inspection sample segment length etc., automatic data-detection library mistake, quickly
Accurate positionin and all kinds of issue handlings, it is ensured that the accuracy of geologic database.
As a preferred technical solution of the present invention, the geologic data will have a direct impact on follow-up Estimation grade and meter
It calculates, in data processing, it is necessary to data accuracy must be checked, not only school will also be compared with achievement early period by logic verify
Core is missed by statistical analysis to look into.
As a preferred technical solution of the present invention, the borehole data of the preliminary geologic database can define grade
Section describes pattern with color, grade, can define the drilling style such as lithology decorative pattern, display pattern and field, drilling title and shows
Setting, shows the data such as geologic lithology, grade, track and the depth of drilling, can be carried out in three dimensions according to limitation range
Section of exploration line generate, the analysis of the preliminary geologic database bonding wire section and improve form geologic data figure.
It as a preferred technical solution of the present invention, is analyzed according to existing exploration data, further finds out mine money
Source situation, Mass Distribution, mine resources are carried out with scientific and reasonable evaluation can be to mineral deposit after the geologic database is established
Grade Elemental redistribution in interior and ore body is for statistical analysis, to understand mining area distribution characteristics and the grade regularity of distribution.
As a preferred technical solution of the present invention, the oil in place is calculated divides boundary based on traditional category of reserves
The rank restricted model of various ranks is established out, then foundation rank restricted model, will to block model respective attributes value assignment
Category of reserves information is written in block model, and the nugget model after valuation, surface or section can be coloured by grade, and
And the information such as display, the related ore-rock of inquiry, grade, color, it is big that stope Mass Distribution shows that information can be pushed to scheduling controlling
Screen or mobile phone terminal, the nugget model after valuation can carry out reserves calculating, reserves result of calculation by the way that different constraints is arranged
It can be counted by elevation, grade interval, rank or other custom fields.
Boundary is carried out according to mining geology resource situation and current mining as a preferred technical solution of the present invention
Optimization, work out that mine is long-range, the middle or short term production schedule and short-term plan, medium-term and long-term plans pass through carries out boundary to surface mine
Optimization generates multiple nested boundaries, carries out the preferred of final mining area and quickly generate boundary by stages, and the long-term production program in mine is compiled
System is the total net present value (NPV) for from dynamic economic point of view obtaining within a longer term deposit mining(NPV)Maximum and satisfaction
A series of production program of technological constraints.
As a preferred technical solution of the present invention, after the stope present situation terrain model is handled by three-dimensional digital
Digitally surface model can be generated(DTM), the stope present situation model dynamic update Functional Design thinking:It is checked and accepted according to blasthole
Elements of a fix data directly to present situation relief model real-time update, while exporting quick-fried heap entity and step cutting pattern data.
As a preferred technical solution of the present invention, the engineering goes out in figure needs energy according in the number mining platform
It is enough quickly to export various graphs, meet the requirement of construction drawing, while the person works' efficiency that develops skill.
The advantageous effect that is reached of the present invention is:Structure of the invention is novel, passes through three-dimensional geological modeling, Mining scheme establishment
Computer optimization is automated with mine, and quality control is intelligent, and the systems such as integrated card tune, quality analysis and monitoring, implementation process
Change, standardized production process intelligence management and control, is finally reached safe efficient, green exploitation purpose, realizes mining area entirety product
Position estimates, and guidance foundation is provided for production program establishment;It ensures the stability with mine, reduces quality fluctuation;It improves
Production efficiency reduces the reactive power consumption in production process;Data statistics and cost analysis are provided, is conducive in production process
Supervision implement, from the point of view of practical operation effect, digital mining softwares are reached the standard grade, realize oil in place it is real-time calculate more
Newly, the Grade change situation of exploiting field ore body and horsestone while is more easily shown, for exploitation planning for a long time in mine and in short term
Production program establishment, which provides, instructs foundation.In terms of production, by automatic ore blending system, in conjunction with the quick-fried heap in exploiting field and all kinds of grades point
Mine scheme is matched in cloth, formulation that can be accurate and effective, maximized reasonable on the basis of ensuring to go down the hill lime stone grade stabilization
Using resource, the waste of resource is avoided.Simultaneously can Real-time Feedback exploiting field present situation, provide guidance for effectively improving for production efficiency
Foundation.
Description of the drawings
Attached drawing is used to provide further understanding of the present invention, and a part for constitution instruction, the reality with the present invention
It applies example to be used to explain the present invention together, not be construed as limiting the invention.In the accompanying drawings:
Fig. 1 is the structural schematic diagram of the present invention;
Fig. 2 is the flowage structure schematic diagram of the present invention.
Specific implementation mode
Hereinafter, preferred embodiments of the present invention will be described with reference to the accompanying drawings, it should be understood that preferred reality described herein
Apply example only for the purpose of illustrating and explaining the present invention and is not intended to limit the present invention.
Embodiment 1
As shown in Figs. 1-2, the present invention provides a kind of digital mining softwares platform, including digital mining softwares platform, number mining
Software platform includes three-dimensional geological modeling, oil in place calculating, mining plan establishment, Ore blending, stope receipt control, engineering
Go out figure.
Three-dimensional geological modeling needs the on-site data gathering, on-site data gathering to include:Three-dimensional exploration engineering database and ground
The model of geological structure body such as layer, tomography, ore body and interlayer, the attached drawing for establishing the basic data source geology prospecting report of these models are attached
Table, deviational survey table, to sample chemical examination table and to the chemical examination table of rock property, by carrying out geological statistics/variation letter to sample data
Number analysis, analyzes grade variability in 3-D view;It is fitted by theoretical variation function or polygamma function nesting model of fit, really
Determine main shaft, secondary axes, short-axis direction, ratio, block gold number, become the parameters such as journey, transition value, cross validation or nugget mould are used for after preservation
Type valuation is directed to drilling sample erratic high-grade processing, provides domestic erratic high-grade processing correlation method:Scalping method gives
Value method, ore body average grade method, single engineering method, neighboring samples mean value method etc., the exploration engineering data of mine different phase
Including borehole data, exploratory trench data, down-the-hole data, engineering data base carries Mine geological prospecting, productive prospecting and grown place
The details of matter, accurate geologic database be carry out GEOLOGICAL INTERPRETATION, geological modeling, statistical analysis, grade estimate, reserves
The data processings such as calculating are DIMINE software data formats, imported into DIMINE softwares and can be carried out geologic database field pair
It should be established with preliminary geologic database, in DIMINE softwares, " line editor " module in software can be utilized to complete geology solution
The process translated, ore body contour line, the construction space lines such as line and rock stratum line are structure three-dimensional geological model bases.In Application in mining,
There are two types of the acquisition modes of these space lines are general, one is according to the existing CAD or MAPGIS flat sectional drawings in mine(Papery figure
Paper first carries out vector quantization), it imported into software, after being corrected in conjunction with geologic database, forms three-dimensional geological boundary line, and then carry out
Three-dimensional geological entity set-up, another kind are to utilize geologic database, by completing space geology in space after being combined to mine section
Interpretation generates space line to draw a circle to approve ore body, rock stratum and tomography, is then connected according to correspondence and generates geologic body, three-dimensional environment
Behind lower display Geological Engineering track, can various visual angles observation analysis in space, can be along exploration line direction cutting section, according to circle mine
Index carries out the termination of ore body of either simplex journey and is adjusted with dynamic, and completes section GEOLOGICAL INTERPRETATION, the ground prime number established using three-dimensional software
It is space three-dimensional geologic database according to library, is that drilling track " very three-dimensional " reproduces, is accurate, for the accurate meter of reserves
Calculation has vital effect.
, can be practical regular with logic decision according to engineering during preliminary geologic database is established, sample starting
The logical relation of position and final position, inspection lack drilling, inspection lacks sample segments, check azimuthal variation, check inclination angle
Variation, inspection sample segment length etc., automatic data-detection library mistake, quick and precisely positioning and all kinds of issue handlings, it is ensured that geology
The accuracy of database.
Geologic data will have a direct impact on follow-up Estimation grade and calculate, in data processing, it is necessary to must check data standard
True property not only will will also be checked with achievement comparison early period, be missed by statistical analysis to look by logic verify, meanwhile, Ke Yifang
Just exploration engineering design is carried out, the geologic datas such as the Supplementary Exploration edited and recorded and productive prospecting of constructing can be by " single hole typing " work(
Energy or the direct interpolation data in data form carry out geologic database update.
The borehole data of preliminary geologic database can define grade interval and describe pattern with color, grade, can define lithology
Decorative pattern, display pattern and field, the drilling drilling style display setting such as title, show the geologic lithology of drilling, grade, track and
The data such as depth can carry out section of exploration line generation, preliminary geologic database bonding wire according to limitation range in three dimensions
The analysis of section and improve form geologic data figure, three-dimensional geological model includes ore body, stratum and construction etc., in DIMINE softwares
In, solid modelling in software can be utilized " function completes the structure of three-dimensional geological body Model, and the data source used in the modeling is come
It sees, the modeling method based on field data can be divided into, the modeling method based on section, the modeling method based on discrete point is based on
The modeling method of borehole data, the modeling method etc. based on multi-source data.It is limited to produce the complexity, empirical strong of mine data
The features such as, mining geology modeling at present still mainly uses profile method, profile method Geologic modeling that can be provided with flexible Application software
Multi-modeling algorithm is carried out, such as minimum perimeter polygon method, minimal surface area method, accelerated surface reconstruction method, advanced in unison method;Simultaneously
Also have the function of auxiliary line, blueline and branch reconstruction etc..
It is analyzed according to existing exploration data, further finds out mine resources situation, Mass Distribution carries out mine resources
Scientific and reasonable evaluation after geologic database is established, can carry out statistical to the grade Elemental redistribution in mineral deposit and in ore body
Analysis, to understand mining area distribution characteristics and the grade regularity of distribution, form there are many ways to DIMINE software Boolean calculations is suitble to real
Body sums with entity, asks poor, also is adapted for entity and sums with the faces DTM, asks poor.
Oil in place is calculated divides the rank restricted model that various ranks are established out on boundary based on traditional category of reserves, then
According to rank restricted model to block model respective attributes value assignment, category of reserves information is written in block model, valuation
Nugget model afterwards, surface or section can be coloured by grade, and shown, inquired the letters such as related ore-rock, grade, color
Breath, stope Mass Distribution show that information can be pushed to scheduling controlling large-size screen monitors or mobile phone terminal, and the nugget model after valuation can pass through
Different constraints is set and carries out reserves calculating, reserves result of calculation can by elevation, grade interval, rank or other make by oneself
Adopted statistics.
Mining plan is worked out and, according to mining geology resource situation and current mining, carries out the excellent of boundary in Ore blending
Change, work out long-range mine, the middle or short term production schedule and short-term plan, medium-term and long-term plans are excellent by carrying out boundary to surface mine
Change, generates multiple nested boundaries, carry out the preferred of final mining area and quickly generate boundary by stages, the long-term production program establishment in mine
It is the total net present value (NPV) for from dynamic economic point of view obtaining within a longer term deposit mining(NPV)Maximum and satisfaction one
The production program of series technique constraint.
Stope present situation terrain model can generate digitally surface model after being handled by three-dimensional digital(DTM), stope
Present situation model dynamic update Functional Design thinking:The elements of a fix data checked and accepted according to blasthole are directly real-time to present situation relief model
Update, while exporting quick-fried heap entity and step cutting pattern data.
Engineering goes out in figure to be needed quickly export various graphs according in number mining platform, meets wanting for construction drawing
It asks, while the person works' efficiency that develops skill.
The device is a kind of digital mining softwares platform, first by by geological prospecting field data collection, collecting engineering
DIMINE is imported after essential information, sample and lithology, in DIMINE softwares, " line editor " module in software can be utilized
The process of GEOLOGICAL INTERPRETATION is completed, ore body contour line, the construction space lines such as line and rock stratum line are that structure three-dimensional geological model is basic, three
After showing Geological Engineering track under dimension environment, can various visual angles observation analysis in space, can be along exploration line direction cutting section, root
The termination of ore body of either simplex journey is carried out according to circle mine index to adjust with dynamic, and completes section GEOLOGICAL INTERPRETATION, is established using three-dimensional software
Geologic database is space three-dimensional geologic database, is that drilling track " very three-dimensional " reproduces, is accurate, for reserves
Accurate calculate has vital effect, in data processing, it is necessary to must check data accuracy, not only to pass through logic school
It tests, also to check with achievement comparison early period, be missed by statistical analysis to look into, tentatively establish geology library, meanwhile, progress can be facilitated
Exploration engineering designs, construct the geologic datas such as the Supplementary Exploration edited and recorded and productive prospecting can by " single hole typing " function or
The direct interpolation data in data form carries out geologic database update, and three-dimensional geological model includes ore body, stratum and construction
Deng, in DIMINE softwares, can utilize software in solid modelling " function complete three-dimensional geological body Model structure, establish mine
Bed and horsestone model(Tomography is similar with ore body model method for building up with stratigraphic model method for building up), realize that deposit three-dimensional is visual
Change, to realize the dynamic management of resource and rationally utilizing, is the more efficient progress of mining geology design work, is mine three-dimensional environment
Under adopt accurate, back production design etc. foundation be provided, after the completion of ore body model is established, there is following several big effects:Three-dimensional visualization;Stereometer
It calculates;It is combined with geologic database and carries out spatial analysis;Threedimensional model constraint is provided for Estimation grade, reserves calculating;It is adopted for three-dimensional
Mine optimization design provides data supporting;The indexs such as mining design and poor damage are supported to calculate, for production mine, traditional CAD mappings
Means often will appear flat cutting faces line and not correspond to, and software is provided with the detection of flat cutting faces correspondence, intersection point matching, grid-search method and net
The functions such as lattice modeling carry out batch or single mesh modeling, to solve Varied ore deposit three-dimensional geological on the basis of flat cutting faces correspond to
Accurate Model is analyzed according to existing exploration data, further finds out mine resources situation, Mass Distribution, to mine resources into
Row scientific and reasonable evaluation can count the grade Elemental redistribution in mineral deposit and in ore body after geologic database is established
Analysis, to understand mining area distribution characteristics and the grade regularity of distribution, by carrying out geological statistics/variation function point to sample data
Grade variability is analyzed in analysis in 3-D view;It is fitted by theoretical variation function or polygamma function nesting model of fit, determination is led
Axis, short-axis direction, ratio, block gold number, becomes the parameters such as journey, transition value at secondary axes, estimates for cross validation or nugget model after preservation
Value, selected valuation parameter can also by apart from power inverse ratio method, Kriging method valuation parameter cross validation function progress can
It is analyzed by property, block model is the basis that deposit grade estimates and reserves calculate, and basic thought is by mineral deposit in three dimensions
It is interior that numerous cell blocks is divided into according to certain size, then according to known sample spot, by spatial interpolation methods to whole
The grade of cell block within the scope of a mineral deposit is estimated, and then carries out calculating and the statistics of reserves on this basis.To realize
The dynamic management of geological resource reserves, the calculating of mining design index, production difficulty evaluation etc. provide data, to having estimated the block of value, lead to
It crosses " block model constraint-constant, variable assignments " and carries out ore type, category of reserves assignment and other attribute assignments respectively, estimate
Nugget model after value can carry out reserves calculating by the way that different constraints is arranged, and reserves result of calculation can be by elevation, product
Position section, rank or other custom fields statistics, generate customized reserve statistics table, block model can divide after valuation
The mine amount distribution for analysing entire mineral deposit difference cut-off grade can also constrain the ore body model for generating different cut-off grades, mine life
In production management mining production can be effectively instructed in conjunction with fluctuation of price dynamic analysis, the nugget model that DIMINE softwares are established,
The mechanical analyses software data format such as flac3d can be conveniently stored data as, the content of stope checking and accepting is to grasp stope
Production tempo examines stope construction quality.Stope checking and accepting is the basis of mining geology, mining technique management work,
Such as ownership verification, two level mine buret reason, production technical reserve, explosion design, are all using stope checking and accepting as base with mine
Plinth, for stope present situation model in DIMINE softwares, the method for generating ground model has raw measurement data method of formation, vector
The CAD topographic map contour lines creation methods and topographic map elevational point method of formation of change, stope present situation model dynamic update Functional Design are thought
Road:The elements of a fix data checked and accepted according to blasthole export quick-fried heap entity and platform directly to present situation relief model real-time update
Rank graph data.The new model and figure of generation can be used for explosion design, reserves consumption calculations, the production schedule, three-dimensional visualization
In the work such as displaying, while being also the significant data platform for generating tissue and process monitoring, in opencast mining present situation and adopts stripping
On the basis of plan, geologic grade is accurately supplemented by geotechnical boring information and blasthole rock powder analysis data, base area
The quick-fried heap grade spatial distribution that matter statistics estimates is carried out according to the yield and grade constraints of setting between quick-fried heap
Optimization calculates optimal ore arranging scheme, obtains quick-fried heap shovel holding position, direction of propulsion, yield, grade etc. and matches mine scheme
Data provide scientific basis and Data safeguard for Production of Strip Mine Optimized Operation, realize and match mine demand automatically, number mining platform
It is middle need to quickly to export various graphs, meet the requirement of construction drawing, while the person works' efficiency that develops skill.
The advantageous effect that is reached of the present invention is:Structure of the invention is novel, passes through three-dimensional geological modeling, Mining scheme establishment
Computer optimization is automated with mine, and quality control is intelligent, and the systems such as integrated card tune, quality analysis and monitoring, implementation process
Change, standardized production process intelligence management and control, is finally reached safe efficient, green exploitation purpose, realizes mining area entirety product
Position estimates, and guidance foundation is provided for production program establishment;It ensures the stability with mine, reduces quality fluctuation;It improves
Production efficiency reduces the reactive power consumption in production process;Data statistics and cost analysis are provided, is conducive in production process
Supervision implement, from the point of view of practical operation effect, digital mining softwares are reached the standard grade, realize oil in place it is real-time calculate more
Newly, the Grade change situation of exploiting field ore body and horsestone while is more easily shown, for exploitation planning for a long time in mine and in short term
Production program establishment, which provides, instructs foundation.In terms of production, by automatic ore blending system, in conjunction with the quick-fried heap in exploiting field and all kinds of grades point
Mine scheme is matched in cloth, formulation that can be accurate and effective, maximized reasonable on the basis of ensuring to go down the hill lime stone grade stabilization
Using resource, the waste of resource is avoided.Simultaneously can Real-time Feedback exploiting field present situation, provide guidance for effectively improving for production efficiency
Foundation.
Finally it should be noted that:The foregoing is only a preferred embodiment of the present invention, is not intended to restrict the invention,
Although the present invention is described in detail referring to the foregoing embodiments, for those skilled in the art, still may be used
With technical scheme described in the above embodiments is modified or equivalent replacement of some of the technical features.
All within the spirits and principles of the present invention, any modification, equivalent replacement, improvement and so on should be included in the present invention's
Within protection domain.
Claims (10)
1. a kind of number mining softwares platform, including digital mining softwares platform, which is characterized in that the number mining softwares are flat
Platform includes that three-dimensional geological modeling, oil in place calculating, mining plan establishment, Ore blending, stope receipt control, engineering go out figure.
2. a kind of digital mining softwares platform according to claim 1, which is characterized in that the three-dimensional geological modeling needs
On-site data gathering, the on-site data gathering include:Three-dimensional exploration engineering database and stratum, tomography, ore body and interlayer etc.
Model of geological structure body, establishes the attached drawing subordinate list of the basic data source geology prospecting report of these models, and deviational survey table chemically examines sample
Table and chemical examination table to rock property, the exploration engineering data of mine different phase include borehole data, exploratory trench data, down-the-hole number
According to engineering data base carries the details of Mine geological prospecting, productive prospecting and production geology, accurate geologic database
It is to carry out that GEOLOGICAL INTERPRETATION, geological modeling, statistical analysis, grade estimates, reserves calculate etc., and data processings are DIMINE software numbers
According to format, it imported into DIMINE softwares and can be carried out geologic database field correspondence and preliminary geologic database foundation.
3. a kind of digital mining softwares platform according to claim 1, which is characterized in that in the preliminary geologic database
, can be practical regular with logic decision according to engineering during foundation, the logical relation of sample initial position and final position,
Inspection lacks drilling, inspection lacks sample segments, checks azimuthal variation, checks change of pitch angle, checks sample segment length etc., automatically
Test database mistake, quick and precisely positioning and all kinds of issue handlings, it is ensured that the accuracy of geologic database.
4. a kind of digital mining softwares platform according to claim 1, which is characterized in that the geologic data can direct shadow
Ring to follow-up Estimation grade with calculate, in data processing, it is necessary to data accuracy must be checked, not only will by logic verify,
It also to check with achievement comparison early period, be missed by statistical analysis to look into.
5. a kind of digital mining softwares platform according to claim 1, which is characterized in that the preliminary geologic database
Borehole data can define grade interval and describe pattern with color, grade, can define lithology decorative pattern, display pattern and field, drilling
The drilling style display setting such as title, shows the data such as geologic lithology, grade, track and the depth of drilling, can be in three dimensions
According to limitation range carry out section of exploration line generation, the analysis of the preliminary geologic database bonding wire section and improve formed
Geologic data figure.
6. a kind of digital mining softwares platform according to claim 5, which is characterized in that according to existing exploration data point
Analysis, further finds out mine resources situation, Mass Distribution carries out mine resources scientific and reasonable evaluation, the geologic data
Library establish after, can be for statistical analysis to the grade Elemental redistribution in mineral deposit and in ore body, with understand mining area distribution characteristics and
The grade regularity of distribution.
7. a kind of digital mining softwares platform according to claim 1, which is characterized in that the oil in place calculating is based on
Traditional category of reserves divides the rank restricted model that various ranks are established out on boundary, then according to rank restricted model to block mould
Type respective attributes value assignment, category of reserves information is written in block model, the nugget model after valuation, surface or section energy
It is enough to be coloured by grade, and show, inquire the information such as related ore-rock, grade, color, stope Mass Distribution shows that information can
To be pushed to scheduling controlling large-size screen monitors or mobile phone terminal, the nugget model after valuation can be stored up by the way that different constraints is arranged
Amount calculates, and reserves result of calculation can be counted by elevation, grade interval, rank or other custom fields.
8. a kind of digital mining softwares platform according to claim 1, which is characterized in that the mining plan establishment and institute
It states in Ore blending according to mining geology resource situation and current mining, carries out the optimization of boundary, work out that mine is long-range, middle or short term
The production schedule and short-term plan, medium-term and long-term plans generate multiple nested boundaries, carry out by carrying out boundary optimization to surface mine
Final mining area preferred simultaneously quickly generates boundary by stages, and the long-term production program establishment in mine is from dynamic economic point of view one
The total net present value (NPV) for obtaining deposit mining in a longer term(NPV)A series of production program that is maximum and meeting technological constraints.
9. a kind of digital mining softwares platform according to claim 1, which is characterized in that the stope present situation terrain model
Digitally surface model can be generated after being handled by three-dimensional digital(DTM), the stope present situation model dynamic more new function
Mentality of designing:The elements of a fix data checked and accepted according to blasthole are directly to present situation relief model real-time update, while it is real to export quick-fried heap
Body and step cutting pattern data.
10. a kind of digital mining softwares platform according to claim 1, which is characterized in that the engineering goes out basis in figure
It needs quickly export various graphs in the number mining platform, meets the requirement of construction drawing, while the people that develops skill
Member's working efficiency.
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Citations (8)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN101114276A (en) * | 2007-08-28 | 2008-01-30 | 中国地质大学(武汉) | Solid body mineral deposit three-dimensional visual reserves calculation system and computation method |
CN102279980A (en) * | 2010-06-13 | 2011-12-14 | 中国地质科学院矿产资源研究所 | Geological exploration ore body three-dimensional modeling method and device thereof |
CN103729880A (en) * | 2013-12-20 | 2014-04-16 | 柳州腾龙煤电科技股份有限公司 | Geological exploring ore body three-dimensional modeling system |
CN103824329A (en) * | 2014-01-20 | 2014-05-28 | 中国地质科学院矿产资源研究所 | Geological exploration three-dimensional visual reserve estimation method |
CN104929687A (en) * | 2015-07-02 | 2015-09-23 | 中国黄金集团内蒙古矿业有限公司 | Mine digitlization production management and control system and method |
CN106529755A (en) * | 2016-08-25 | 2017-03-22 | 中国黄金集团内蒙古矿业有限公司 | Mine geological resource reserve management method |
CN106530396A (en) * | 2016-08-25 | 2017-03-22 | 中国黄金集团内蒙古矿业有限公司 | Mining geological logging data three dimensional processing method |
CN106560865A (en) * | 2016-08-25 | 2017-04-12 | 中国黄金集团内蒙古矿业有限公司 | Three big geologic models based on daily production correlation |
-
2017
- 2017-12-22 CN CN201711407064.3A patent/CN108305184A/en active Pending
Patent Citations (8)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN101114276A (en) * | 2007-08-28 | 2008-01-30 | 中国地质大学(武汉) | Solid body mineral deposit three-dimensional visual reserves calculation system and computation method |
CN102279980A (en) * | 2010-06-13 | 2011-12-14 | 中国地质科学院矿产资源研究所 | Geological exploration ore body three-dimensional modeling method and device thereof |
CN103729880A (en) * | 2013-12-20 | 2014-04-16 | 柳州腾龙煤电科技股份有限公司 | Geological exploring ore body three-dimensional modeling system |
CN103824329A (en) * | 2014-01-20 | 2014-05-28 | 中国地质科学院矿产资源研究所 | Geological exploration three-dimensional visual reserve estimation method |
CN104929687A (en) * | 2015-07-02 | 2015-09-23 | 中国黄金集团内蒙古矿业有限公司 | Mine digitlization production management and control system and method |
CN106529755A (en) * | 2016-08-25 | 2017-03-22 | 中国黄金集团内蒙古矿业有限公司 | Mine geological resource reserve management method |
CN106530396A (en) * | 2016-08-25 | 2017-03-22 | 中国黄金集团内蒙古矿业有限公司 | Mining geological logging data three dimensional processing method |
CN106560865A (en) * | 2016-08-25 | 2017-04-12 | 中国黄金集团内蒙古矿业有限公司 | Three big geologic models based on daily production correlation |
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